问题：Essentials of Computational Chemistry Theories and Models Cramer著2002年出版
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回复人：Yan,★ (他山之石，可以攻玉) 时间：2005-03-14 23:00:17 编辑

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13M
2002年第一版
第二版目录
1. What are Theory, Computation, and Modeling?

1.1 Definition of Terms.

1.2 Quantum Mechanics.

1.3 Computable Quantities.

1.3.1 Structure.

1.3.2 Potential Energy Surfaces.

1.3.3 Chemical Properties.

1.4 Cost and Efficiency.

1.4.1 Intrinsic Value.

1.4.2 Hardware and Software.

1.4.3 Algorithms.

1.5 Note on Units.

Bibliography and Suggested Additional Reading.

References.

2. Molecular Mechanics.

2.1 History and Fundamental Assumptions.

2.2 Potential Energy Functional Forms.

2.2.1 Bond Stretching.

2.2.2 Valence Angle Bending.

2.2.3 Torsions.

2.2.4 van der Waals Interactions.

2.2.5 Electrostatic Interactions.

2.2.6 Cross Terms and Additional Non-bonded Terms.

2.2.7 Parameterization Strategies.

2.3 Force-field Energies and Thermodynamics.

2.4 Geometry Optimization.

2.4.1 Optimization Algorithms.

2.4.2 Optimization Aspects Specific to Force Fields.

2.5 Menagerie of Modern Force Fields.

2.5.1 Available Force Fields.

2.5.2 Validation.

2.6 Force Fields and Docking.

2.7 Case Study: (2R*,4S*)-1-Hydroxy-2,4-dimethylhex-5-ene.

Bibliography and Suggested Additional Reading.

References.

3. Simulations of Molecular Ensembles.

3.1 Relationship Between MM Optima and Real Systems.

3.2 Phase Space and Trajectories.

3.2.1 Properties as Ensemble Averages.

3.2.2 Properties as Time Averages of Trajectories.

3.3 Molecular Dynamics.

3.3.1 Harmonic Oscillator Trajectories.

3.3.2 Non-analytical Systems.

3.3.3 Practical Issues in Propagation.

3.3.4 Stochastic Dynamics.

3.4 Monte Carlo.

3.4.1 Manipulation of Phase-space Integrals.

3.4.2 Metropolis Sampling.

3.5 Ensemble and Dynamical Property Examples.

3.6 Key Details in Formalism.

3.6.1 Cutoffs and Boundary Conditions.

3.6.2 Polarization.

3.6.3 Control of System Variables.

3.6.4 Simulation Convergence.

3.6.5 The Multiple Minima Problem.

3.7 Force Field Performance in Simulations.

3.8 Case Study: Silica Sodalite.

Bibliography and Suggested Additional Reading.

References.

4. Foundations of Molecular Orbital Theory.

4.1 Quantum Mechanics and the Wave Function.

4.2 The Hamiltonian Operator.

4.2.1 General Features.

4.2.2 The Variational Principle.

4.2.3 The Born-Oppenheimer Approximation.

4.3 Construction of Trial Wave Functions.

4.3.1 The LCAO Basis Set Approach.

4.3.2 The Secular Equation.

4.4 H¨uckel Theory.

4.4.1 Fundamental Principles.

4.4.2 Application to the Allyl System.

4.5 Many-electron Wave Functions.

4.5.1 Hartree-product Wave Functions.

4.5.2 The Hartree Hamiltonian.

4.5.3 Electron Spin and Antisymmetry.

4.5.4 Slater Determinants.

4.5.5 The Hartree-Fock Self-consistent Field Method.

Bibliography and Suggested Additional Reading.

References.

5. Semiempirical Implementations of Molecular Orbital Theory..

5.1 Semiempirical Philosophy.

5.1.1 Chemically Virtuous Approximations.

5.1.2 Analytic Derivatives.

5.2 Extended Hückel Theory.

5.3 CNDO Formalism.

5.4 INDO Formalism.

5.4.1 INDO and INDO/S.

5.4.2 MINDO/3 and SINDO1.

5.5 Basic NDDO Formalism.

5.5.1 MNDO.

5.5.2 AM1.

5.5.3 PM3.

5.6 General Performance Overview of Basic NDDO Models.

5.6.1 Energetics.

5.6.2 Geometries.

5.6.3 Charge Distributions.

5.7 Ongoing Developments in Semiempirical MO Theory.

5.7.1 Use of Semiempirical Properties in SAR.

5.7.2 d Orbitals in NDDO Models.

5.7.3 SRP Models.

5.7.4 Linear Scaling.

5.7.5 Other Changes Functional Form.

5.8 Case Study: Asymmetric Alkylation of Benzaldehyde.

Bibliography and Suggested Additional Reading.

References.

6. Ab Initio Implementations of Hartree-Fock Molecular Orbital.

Theory.

6.1 Ab Initio Philosophy.

6.2 Basis Sets.

6.2.1 Functional Forms.

6.2.2 Contracted Gaussian Functions.

6.2.3 Single-ζ, Multiple-ζ, and Split-Valence.

6.2.4 Polarization Functions.

6.2.5 Diffuse Functions.

6.2.6 The HF Limit.

6.2.7 Effective Core Potentials.

6.2.8 Sources.

6.3 Key Technical and Practical Points of Hartree-Fock Theory.

6.3.1 SCF Convergence.

6.3.2 Symmetry.

6.3.3 Open-shell Systems.

6.3.4 Efficiency of Implementation and Use.

6.4 General Performance Overview of Ab Initio HF Theory.

6.4.1 Energetics.

6.4.2 Geometries.

6.4.3 Charge Distributions.

6.5 Case Study: Polymerization of 4-Substituted Aromatic Enynes.

Bibliography and Suggested Additional Reading.

References.

7. Including Electron Correlation in Molecular Orbital Theory.

7.1 Dynamical vs. Non-dynamical Electron Correlation.

7.2 Multiconfiguration Self-Consistent Field Theory.

7.2.1 Conceptual Basis.

7.2.2 Active Space Specification.

7.2.3 Full Configuration Interaction.

7.3 Configuration Interaction.

7.3.1 Single-determinant Reference.

7.3.2 Multireference.

7.4 Perturbation Theory.

7.4.1 General Principles.

7.4.2 Single-reference.

7.4.3 Multireference.

7.4.4 First-order Perturbation Theory for Some Relativistic Effects.

7.5 Coupled-cluster Theory.

7.6 Practical Issues in Application.

7.6.1 Basis Set Convergence.

7.6.2 Sensitivity to Reference Wave Function.

7.6.3 Price/Performance Summary.

7.7 Parameterized Methods.

7.7.1 Scaling Correlation Energies.

7.7.2 Extrapolation.

7.7.3 Multilevel Methods.

7.8 Case Study: Ethylenedione Radical Anion.

Bibliography and Suggested Additional Reading.

References.

8. Density Functional Theory.

8.1 Theoretical Motivation.

8.1.1 Philosophy.

8.1.2 Early Approximations.

8.2 Rigorous Foundation.

8.2.1 The Hohenberg-Kohn Existence Theorem.

8.2.2 The Hohenberg-Kohn Variational Theorem.

8.3 Kohn-Sham Self-consistent Field Methodology.

8.4 Exchange-correlation Functionals.

8.4.1 Local Density Approximation.

8.4.2 Density Gradient and Kinetic Energy Density Corrections.

8.4.3 Adiabatic Connection Methods.

8.4.4 Semiempirical DFT.

8.5 Advantages and Disadvantages of DFT Compared to MO Theory.

8.5.1 Densities vs. Wave Functions.

8.5.2 Computational Efficiency.

8.5.3 Limitations of the KS Formalism.

8.5.4 Systematic Improvability.

8.5.5 Worst-case Scenarios.

8.6 General Performance Overview of DFT.

8.6.1 Energetics.

8.6.2 Geometries.

8.6.3 Charge Distributions.

8.7 Case Study: Transition-Metal Catalyzed Carbonylation of Methanol.

Bibliography and Suggested Additional Reading.

References.

9. Charge Distribution and Spectroscopic Properties.

9.1 Properties Related to Charge Distribution.

9.1.1 Electric Multipole Moments.

9.1.2 Molecular Electrostatic Potential.

9.1.3 Partial Atomic Charges.

9.1.4 Total Spin.

9.1.5 Polarizability and Hyperpolarizability.

9.1.6 ESR Hyperfine Coupling Constants.

9.2 Ionization Potentials and Electron Affinities.

9.3 Spectroscopy of Nuclear Motion.

9.3.1 Rotational.

9.3.2 Vibrational.

9.4 NMR Spectral Properties.

9.4.1 Technical Issues.

9.4.2 Chemical Shifts and Spin-spin Coupling Constants.

9.5 Case Study: Matrix Isolation of Perfluorinated p-Benzyne.

Bibliography and Suggested Additional Reading.

References.

10. Thermodynamic Properties.

10.1 Microscopic-macroscopic Connection.

10.2 Zero-point Vibrational Energy.

10.3 Ensemble Properties and Basic Statistical Mechanics.

10.3.1 Ideal Gas Assumption.

10.3.2 Separability of Energy Components.

10.3.3 Molecular Electronic Partition Function.

10.3.4 Molecular Translational Partition Function.

10.3.5 Molecular Rotational Partition Function.

10.3.6 Molecular Vibrational Partition Function.

10.4 Standard-state Heats and Free Energies of Formation and Reaction.

10.4.1 Direct Computation.

10.4.2 Parametric Improvement.

10.4.3 Isodesmic Equations.

10.5 Technical Caveats.

10.5.1 Semiempirical Heats of Formation.

10.5.2 Low-frequency Motions.

10.5.3 Equilibrium Populations over Multiple Minima.

10.5.4 Standard-state Conversions.

10.5.5 Standard-state Free Energies, Equilibrium Constants, and Concentrations.

10.6 Case Study: Heat of Formation of H2NOH.

Bibliography and Suggested Additional Reading.

References.

11. Implicit Models for Condensed Phases.

11.1 Condensed-phase Effects on Structure and Reactivity.

11.1.1 Free Energy of Transfer and Its Physical Components.

11.1.2 Solvation as It Affects Potential Energy Surfaces.

11.2 Electrostatic Interactions with a Continuum.

11.2.1 The Poisson Equation.

11.2.2 Generalized Born.

11.2.3 Conductor-like Screening Model.

11.3 Continuum Models for Non-electrostatic Interactions.

11.3.1 Specific Component Models.

11.3.2 Atomic Surface Tensions.

11.4 Strengths and Weaknesses of Continuum Solvation Models.

11.4.1 General Performance for Solvation Free Energies.

11.4.2 Partitioning.

11.4.3 Non-isotropic Media.

11.4.4 Potentials of Mean Force and Solvent Structure.

11.4.5 Molecular Dynamics with Implicit Solvent.

11.4.6 Equilibrium vs. Non-equilibrium Solvation.

11.5 Case Study: Aqueous Reductive Dechlorination of Hexachloroethane.

Bibliography and Suggested Additional Reading.

References.

12. Explicit Models for Condensed Phases.

12.1 Motivation.

12.2 Computing Free-energy Differences.

12.2.1 Raw Differences.

12.2.2 Free-energy Perturbation.

12.2.3 Slow Growth and Thermodynamic Integration.

12.2.4 Free-energy Cycles.

12.2.5 Potentials of Mean Force.

12.2.6 Technical Issues and Error Analysis.

12.3 Other Thermodynamic Properties.

12.4 Solvent Models.

12.4.1 Classical Models.

12.4.2 Quantal Models.

12.5 Relative Merits of Explicit and Implicit Solvent Models.

12.5.1 Analysis of Solvation Shell Structure and Energetics.

12.5.2 Speed/Efficiency.

12.5.3 Non-equilibrium Solvation.

12.5.4 Mixed Explicit/Implicit Models.

12.6 Case Study: Binding of Biotin Analogs to Avidin.

Bibliography and Suggested Additional Reading.

References.

13. Hybrid Quantal/Classical Models.

13.1 Motivation.

13.2 Boundaries Through Space.

13.2.1 Unpolarized Interactions.

13.2.2 Polarized QM/Unpolarized MM.

13.2.3 Fully Polarized Interactions.

13.3 Boundaries Through Bonds.

13.3.1 Linear Combinations of Model Compounds.

13.3.2 Link Atoms.

13.3.3 Frozen Orbitals.

13.4 Empirical Valence Bond Methods.

13.4.1 Potential Energy Surfaces.

13.4.2 Following Reaction Paths.

13.4.3 Generalization to QM/MM.

13.5 Case Study: Catalytic Mechanism of Yeast Enolase.

Bibliography and Suggested Additional Reading.

References.

14. Excited Electronic States.

14.1 Determinantal/Configurational Representation of Excited States.

14.2 Singly Excited States.

14.2.1 SCF Applicability.

14.2.2 CI Singles.

14.2.3 Rydberg States.

14.3 General Excited State Methods.

14.3.1 Higher Roots in MCSCF and CI Calculations.

14.3.2 Propagator Methods and Time-dependent DFT.

14.4 Sum and Projection Methods.

14.5 Transition Probabilities.

14.6 Solvatochromism.

14.7 Case Study: Organic Light Emitting Diode Alq3.

Bibliography and Suggested Additional Reading.

References.

15. Adiabatic Reaction Dynamics.

15.1 Reaction Kinetics and Rate Constants.

15.1.1 Unimolecular Reactions.

15.1.2 Bimolecular Reactions.

15.2 Reaction Paths and Transition States.

15.3 Transition-state Theory.

15.3.1 Canonical Equation.

15.3.2 Variational Transition-state Theory.

15.3.3 Quantum Effects on the Rate Constant.

15.4 Condensed-phase Dynamics.

15.5 Non-adiabatic Dynamics.

15.5.1 General Surface Crossings.

15.5.2 Marcus Theory.

15.6 Case Study: Isomerization of Propylene Oxide.

Bibliography and Suggested Additional Reading.

References.

Appendix A: Acronym Glossary.

Appendix B: Symmetry and Group Theory.

B.1 Symmetry Elements.

B.2 Molecular Point Groups and Irreducible Representations.

B.3 Assigning Electronic State Symmetries.

B.4 Symmetry in the Evaluation of Integrals and Partition Functions.

Appendix C: Spin Algebra.

C.1 Spin Operators.

C.2 Pure- and Mixed-spin Wave Functions.

C.3 UHF Wave Functions.

C.4 Spin Projection/Annihilation.

Reference.

Appendix D: Orbital Localization.

D.1 Orbitals as Empirical Constructs.

D.2 Natural Bond Orbital Analysis.

References.

Index.

回复人：hakuna,▲ (弱水三千一瓢竞渡) 时间：2005-03-19 08:18:23 编辑	7楼
这本书不错，想看看，怎么支付分数后下不来呀？

回复人：hakuna,▲ (弱水三千一瓢竞渡) 时间：2005-03-21 07:56:47 编辑

8楼

这是本书第二版的目录，改进不大。
Essentials of Computational Chemistry: Theories and Models, 2nd Edition
Christopher J. Cramer
ISBN: 0-470-09182-7
Paperback
618 pages
November 2004

List Price: US $65.00

Preface to the First Edition.
Preface to the Second Edition.

Acknowledgments.

1. What are Theory, Computation, and Modeling?

1.1 Definition of Terms.

1.2 Quantum Mechanics.

1.3 Computable Quantities.

1.3.1 Structure.

1.3.2 Potential Energy Surfaces.

1.3.3 Chemical Properties.

1.4 Cost and Efficiency.

1.4.1 Intrinsic Value.

1.4.2 Hardware and Software.

1.4.3 Algorithms.

1.5 Note on Units.

Bibliography and Suggested Additional Reading.

References.

2..

Molecular Mechanics.

2.1 History and Fundamental Assumptions.

2.2 Potential Energy Functional Forms.

2.2.1 Bond Stretching.

2.2.2 Valence Angle Bending.

2.2.3 Torsions.

2.2.4 van der Waals Interactions.

2.2.5 Electrostatic Interactions.

2.2.6 Cross Terms and Additional Non-bonded Terms.

2.2.7 Parameterization Strategies.

2.3 Force-field Energies and Thermodynamics.

2.4 Geometry Optimization.

2.4.1 Optimization Algorithms.

2.4.2 Optimization Aspects Specific to Force Fields.

2.5 Menagerie of Modern Force Fields.

2.5.1 Available Force Fields.

2.5.2 Validation.

2.6 Force Fields and Docking.

2.7 Case Study: (2R*,4S*)-1-Hydroxy-2,4-dimethylhex-5-ene.

Bibliography and Suggested Additional Reading.

References.

3. Simulations of Molecular Ensembles.

3.1 Relationship Between MM Optima and Real Systems.

3.2 Phase Space and Trajectories.

3.2.1 Properties as Ensemble Averages.

3.2.2 Properties as Time Averages of Trajectories.

3.3 Molecular Dynamics.

3.3.1 Harmonic Oscillator Trajectories.

3.3.2 Non-analytical Systems.

3.3.3 Practical Issues in Propagation.

3.3.4 Stochastic Dynamics.

3.4 Monte Carlo.

3.4.1 Manipulation of Phase-space Integrals.

3.4.2 Metropolis Sampling.

3.5 Ensemble and Dynamical Property Examples.

3.6 Key Details in Formalism.

3.6.1 Cutoffs and Boundary Conditions.

3.6.2 Polarization.

3.6.3 Control of System Variables.

3.6.4 Simulation Convergence.

3.6.5 The Multiple Minima Problem.

3.7 Force Field Performance in Simulations.

3.8 Case Study: Silica Sodalite.

Bibliography and Suggested Additional Reading.

References.

4. Foundations of Molecular Orbital Theory.

4.1 Quantum Mechanics and the Wave Function.

4.2 The Hamiltonian Operator.

4.2.1 General Features.

4.2.2 The Variational Principle.

4.2.3 The Born-Oppenheimer Approximation.

4.3 Construction of Trial Wave Functions.

4.3.1 The LCAO Basis Set Approach.

4.3.2 The Secular Equation.

4.4 H¡§uckel Theory.

4.4.1 Fundamental Principles.

4.4.2 Application to the Allyl System.

4.5 Many-electron Wave Functions.

4.5.1 Hartree-product Wave Functions.

4.5.2 The Hartree Hamiltonian.

4.5.3 Electron Spin and Antisymmetry.

4.5.4 Slater Determinants.

4.5.5 The Hartree-Fock Self-consistent Field Method.

Bibliography and Suggested Additional Reading.

References.

5. Semiempirical Implementations of Molecular Orbital Theory..

5.1 Semiempirical Philosophy.

5.1.1 Chemically Virtuous Approximations.

5.1.2 Analytic Derivatives.

5.2 Extended H¨¹ckel Theory.

5.3 CNDO Formalism.

5.4 INDO Formalism.

5.4.1 INDO and INDO/S.

5.4.2 MINDO/3 and SINDO1.

5.5 Basic NDDO Formalism.

5.5.1 MNDO.

5.5.2 AM1.

5.5.3 PM3.

5.6 General Performance Overview of Basic NDDO Models.

5.6.1 Energetics.

5.6.2 Geometries.

5.6.3 Charge Distributions.

5.7 Ongoing Developments in Semiempirical MO Theory.

5.7.1 Use of Semiempirical Properties in SAR.

5.7.2 d Orbitals in NDDO Models.

5.7.3 SRP Models.

5.7.4 Linear Scaling.

5.7.5 Other Changes Functional Form.

5.8 Case Study: Asymmetric Alkylation of Benzaldehyde.

Bibliography and Suggested Additional Reading.

References.

6. Ab Initio Implementations of Hartree-Fock Molecular Orbital.

Theory.

6.1 Ab Initio Philosophy.

6.2 Basis Sets.

6.2.1 Functional Forms.

6.2.2 Contracted Gaussian Functions.

6.2.3 Single-ζ, Multiple-ζ, and Split-Valence.

6.2.4 Polarization Functions.

6.2.5 Diffuse Functions.

6.2.6 The HF Limit.

6.2.7 Effective Core Potentials.

6.2.8 Sources.

6.3 Key Technical and Practical Points of Hartree-Fock Theory.

6.3.1 SCF Convergence.

6.3.2 Symmetry.

6.3.3 Open-shell Systems.

6.3.4 Efficiency of Implementation and Use.

6.4 General Performance Overview of Ab Initio HF Theory.

6.4.1 Energetics.

6.4.2 Geometries.

6.4.3 Charge Distributions.

6.5 Case Study: Polymerization of 4-Substituted Aromatic Enynes.

Bibliography and Suggested Additional Reading.

References.

7. Including Electron Correlation in Molecular Orbital Theory.

7.1 Dynamical vs. Non-dynamical Electron Correlation.

7.2 Multiconfiguration Self-Consistent Field Theory.

7.2.1 Conceptual Basis.

7.2.2 Active Space Specification.

7.2.3 Full Configuration Interaction.

7.3 Configuration Interaction.

7.3.1 Single-determinant Reference.

7.3.2 Multireference.

7.4 Perturbation Theory.

7.4.1 General Principles.

7.4.2 Single-reference.

7.4.3 Multireference.

7.4.4 First-order Perturbation Theory for Some Relativistic Effects.

7.5 Coupled-cluster Theory.

7.6 Practical Issues in Application.

7.6.1 Basis Set Convergence.

7.6.2 Sensitivity to Reference Wave Function.

7.6.3 Price/Performance Summary.

7.7 Parameterized Methods.

7.7.1 Scaling Correlation Energies.

7.7.2 Extrapolation.

7.7.3 Multilevel Methods.

7.8 Case Study: Ethylenedione Radical Anion.

Bibliography and Suggested Additional Reading.

References.

8. Density Functional Theory.

8.1 Theoretical Motivation.

8.1.1 Philosophy.

8.1.2 Early Approximations.

8.2 Rigorous Foundation.

8.2.1 The Hohenberg-Kohn Existence Theorem.

8.2.2 The Hohenberg-Kohn Variational Theorem.

8.3 Kohn-Sham Self-consistent Field Methodology.

8.4 Exchange-correlation Functionals.

8.4.1 Local Density Approximation.

8.4.2 Density Gradient and Kinetic Energy Density Corrections.

8.4.3 Adiabatic Connection Methods.

8.4.4 Semiempirical DFT.

8.5 Advantages and Disadvantages of DFT Compared to MO Theory.

8.5.1 Densities vs. Wave Functions.

8.5.2 Computational Efficiency.

8.5.3 Limitations of the KS Formalism.

8.5.4 Systematic Improvability.

8.5.5 Worst-case Scenarios.

8.6 General Performance Overview of DFT.

8.6.1 Energetics.

8.6.2 Geometries.

8.6.3 Charge Distributions.

8.7 Case Study: Transition-Metal Catalyzed Carbonylation of Methanol.

Bibliography and Suggested Additional Reading.

References.

9. Charge Distribution and Spectroscopic Properties.

9.1 Properties Related to Charge Distribution.

9.1.1 Electric Multipole Moments.

9.1.2 Molecular Electrostatic Potential.

9.1.3 Partial Atomic Charges.

9.1.4 Total Spin.

9.1.5 Polarizability and Hyperpolarizability.

9.1.6 ESR Hyperfine Coupling Constants.

9.2 Ionization Potentials and Electron Affinities.

9.3 Spectroscopy of Nuclear Motion.

9.3.1 Rotational.

9.3.2 Vibrational.

9.4 NMR Spectral Properties.

9.4.1 Technical Issues.

9.4.2 Chemical Shifts and Spin-spin Coupling Constants.

9.5 Case Study: Matrix Isolation of Perfluorinated p-Benzyne.

Bibliography and Suggested Additional Reading.

References.

10. Thermodynamic Properties.

10.1 Microscopic-macroscopic Connection.

10.2 Zero-point Vibrational Energy.

10.3 Ensemble Properties and Basic Statistical Mechanics.

10.3.1 Ideal Gas Assumption.

10.3.2 Separability of Energy Components.

10.3.3 Molecular Electronic Partition Function.

10.3.4 Molecular Translational Partition Function.

10.3.5 Molecular Rotational Partition Function.

10.3.6 Molecular Vibrational Partition Function.

10.4 Standard-state Heats and Free Energies of Formation and Reaction.

10.4.1 Direct Computation.

10.4.2 Parametric Improvement.

10.4.3 Isodesmic Equations.

10.5 Technical Caveats.

10.5.1 Semiempirical Heats of Formation.

10.5.2 Low-frequency Motions.

10.5.3 Equilibrium Populations over Multiple Minima.

10.5.4 Standard-state Conversions.

10.5.5 Standard-state Free Energies, Equilibrium Constants, and Concentrations.

10.6 Case Study: Heat of Formation of H2NOH.

Bibliography and Suggested Additional Reading.

References.

11. Implicit Models for Condensed Phases.

11.1 Condensed-phase Effects on Structure and Reactivity.

11.1.1 Free Energy of Transfer and Its Physical Components.

11.1.2 Solvation as It Affects Potential Energy Surfaces.

11.2 Electrostatic Interactions with a Continuum.

11.2.1 The Poisson Equation.

11.2.2 Generalized Born.

11.2.3 Conductor-like Screening Model.

11.3 Continuum Models for Non-electrostatic Interactions.

11.3.1 Specific Component Models.

11.3.2 Atomic Surface Tensions.

11.4 Strengths and Weaknesses of Continuum Solvation Models.

11.4.1 General Performance for Solvation Free Energies.

11.4.2 Partitioning.

11.4.3 Non-isotropic Media.

11.4.4 Potentials of Mean Force and Solvent Structure.

11.4.5 Molecular Dynamics with Implicit Solvent.

11.4.6 Equilibrium vs. Non-equilibrium Solvation.

11.5 Case Study: Aqueous Reductive Dechlorination of Hexachloroethane.

Bibliography and Suggested Additional Reading.

References.

12. Explicit Models for Condensed Phases.

12.1 Motivation.

12.2 Computing Free-energy Differences.

12.2.1 Raw Differences.

12.2.2 Free-energy Perturbation.

12.2.3 Slow Growth and Thermodynamic Integration.

12.2.4 Free-energy Cycles.

12.2.5 Potentials of Mean Force.

12.2.6 Technical Issues and Error Analysis.

12.3 Other Thermodynamic Properties.

12.4 Solvent Models.

12.4.1 Classical Models.

12.4.2 Quantal Models.

12.5 Relative Merits of Explicit and Implicit Solvent Models.

12.5.1 Analysis of Solvation Shell Structure and Energetics.

12.5.2 Speed/Efficiency.

12.5.3 Non-equilibrium Solvation.

12.5.4 Mixed Explicit/Implicit Models.

12.6 Case Study: Binding of Biotin Analogs to Avidin.

Bibliography and Suggested Additional Reading.

References.

13. Hybrid Quantal/Classical Models.

13.1 Motivation.

13.2 Boundaries Through Space.

13.2.1 Unpolarized Interactions.

13.2.2 Polarized QM/Unpolarized MM.

13.2.3 Fully Polarized Interactions.

13.3 Boundaries Through Bonds.

13.3.1 Linear Combinations of Model Compounds.

13.3.2 Link Atoms.

13.3.3 Frozen Orbitals.

13.4 Empirical Valence Bond Methods.

13.4.1 Potential Energy Surfaces.

13.4.2 Following Reaction Paths.

13.4.3 Generalization to QM/MM.

13.5 Case Study: Catalytic Mechanism of Yeast Enolase.

Bibliography and Suggested Additional Reading.

References.

14. Excited Electronic States.

14.1 Determinantal/Configurational Representation of Excited States.

14.2 Singly Excited States.

14.2.1 SCF Applicability.

14.2.2 CI Singles.

14.2.3 Rydberg States.

14.3 General Excited State Methods.

14.3.1 Higher Roots in MCSCF and CI Calculations.

14.3.2 Propagator Methods and Time-dependent DFT.

14.4 Sum and Projection Methods.

14.5 Transition Probabilities.

14.6 Solvatochromism.

14.7 Case Study: Organic Light Emitting Diode Alq3.

Bibliography and Suggested Additional Reading.

References.

15. Adiabatic Reaction Dynamics.

15.1 Reaction Kinetics and Rate Constants.

15.1.1 Unimolecular Reactions.

15.1.2 Bimolecular Reactions.

15.2 Reaction Paths and Transition States.

15.3 Transition-state Theory.

15.3.1 Canonical Equation.

15.3.2 Variational Transition-state Theory.

15.3.3 Quantum Effects on the Rate Constant.

15.4 Condensed-phase Dynamics.

15.5 Non-adiabatic Dynamics.

15.5.1 General Surface Crossings.

15.5.2 Marcus Theory.

15.6 Case Study: Isomerization of Propylene Oxide.

Bibliography and Suggested Additional Reading.

References.

Appendix A Acronym Glossary.

Appendix B Symmetry and Group Theory.

B.1 Symmetry Elements.

B.2 Molecular Point Groups and Irreducible Representations.

B.3 Assigning Electronic State Symmetries.

B.4 Symmetry in the Evaluation of Integrals and Partition Functions.

Appendix C Spin Algebra.

C.1 Spin Operators.

C.2 Pure- and Mixed-spin Wave Functions.

C.3 UHF Wave Functions.

C.4 Spin Projection/Annihilation.

Reference.

Appendix D Orbital Localization.

D.1 Orbitals as Empirical Constructs.

D.2 Natural Bond Orbital Analysis.

References.

Index.

回复人：hakuna,▲ (弱水三千一瓢竞渡) 时间：2005-03-22 09:21:27 编辑	9楼
下了三天，终于下完了。可是，540多页的书，这个连接才232页，即前7章，后面的8章和附录能否传一下？其实，我早复印过这本书，只是想把复印不是很清楚的校对一下。

回复人：deng_jin,▲▲▲ (理论有机，研究方向：利用计算机辅助量化计算研究外部场（电磁复合场）对空间有机选择性合成) 时间：2005-03-22 09:34:54 编辑	10楼
确实！Yan兄，只有前面7章，后面的呢？

回复人：Yan,★ (他山之石，可以攻玉) 时间：2005-03-22 22:03:22 编辑	11楼
没注意，还没碰到过这种问题。以后留意看有无更全的书。

回复人：Yan,★ (他山之石，可以攻玉) 时间：2005-03-22 22:05:20 编辑	12楼
扫描版的书，容易出问题。

回复人：gsbgsb,▲ (我是一个想上进的学生，请各位化学同仁多多帮助我。) 时间：2005-11-29 22:04:47 编辑	13楼
资源不错，加0.1分

回复人：yuhui234,▲ (博士学位) 时间：2007-09-18 10:41:50 编辑	14楼

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